DocumentCode
2046186
Title
Identical-coordinate bilateral control for master-slave type power-assisted system
Author
Yajima, Shunsuke ; Katsura, Seiichiro
Author_Institution
Dept. of Syst. Design Eng., Keio Univ., Yokohama, Japan
fYear
2011
fDate
13-18 Sept. 2011
Firstpage
622
Lastpage
627
Abstract
Recent years, the advanced robotic technologies are progressing, and the human motion support by robots is expected. For realizing the human motion support by robots, it is needed to consider the interaction among robots, humans, and unknown environment. Therefore in this paper, “physical extender,” “tool extender” and “environmental extender” are defined for human motion support. In this paper, “physical extender” and “tool extender” in real-world haptics are focused. In real-world haptics, robots can acquire human and environmental information simultaneously by using master and slave systems. Thus, the real-world haptics is suitable for supporting human motion. In this paper, the power-assisted system as “physical extender” and the pen system as “tool extender” are proposed based on the definition. The proposed systems have characteristics that a master and a slave systems are located closely in one device. For realizing these systems, an identical-coordinate bilateral control is constructed. By using the proposal, it is possible that the master and the slave are controlled to be located adjacently in the identical coordinate. Therefore, the master and the slave system move as if two systems are integrated into one device, and it is possible to realize “physical extender” and “tool extender.” In this paper, the identical-coordinate bilateral control for “physical extender” is constructed. The validity of the proposal is verified by experimental results.
Keywords
haptic interfaces; human-robot interaction; manipulators; environmental extender; human motion support; identical-coordinate bilateral control; master-slave type power-assisted system; physical extender; real-world haptics; tool extender; Aerospace electronics; Control systems; Force; Humans; Robot kinematics; Torque; Acceleration Control; Bilateral Control; Disturbance Observer; Human Support System; Motion Control; Real-World Haptics;
fLanguage
English
Publisher
ieee
Conference_Titel
SICE Annual Conference (SICE), 2011 Proceedings of
Conference_Location
Tokyo
ISSN
pending
Print_ISBN
978-1-4577-0714-8
Type
conf
Filename
6060741
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